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/*
* Copyright (C) 2010-2013 ARM Limited. All rights reserved.
*
* This program is free software and is provided to you under the terms of the GNU General Public License version 2
* as published by the Free Software Foundation, and any use by you of this program is subject to the terms of such GNU licence.
*
* A copy of the licence is included with the program, and can also be obtained from Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
*/
/**
* @file mali_uk_types.h
* Defines the types and constants used in the user-kernel interface
*/
#ifndef __MALI_UTGARD_UK_TYPES_H__
#define __MALI_UTGARD_UK_TYPES_H__
#ifdef __cplusplus
extern "C"
{
#endif
/**
* @addtogroup uddapi Unified Device Driver (UDD) APIs
*
* @{
*/
/**
* @addtogroup u_k_api UDD User/Kernel Interface (U/K) APIs
*
* @{
*/
/** @defgroup _mali_uk_core U/K Core
* @{ */
/** Definition of subsystem numbers, to assist in creating a unique identifier
* for each U/K call.
*
* @see _mali_uk_functions */
typedef enum
{
_MALI_UK_CORE_SUBSYSTEM, /**< Core Group of U/K calls */
_MALI_UK_MEMORY_SUBSYSTEM, /**< Memory Group of U/K calls */
_MALI_UK_PP_SUBSYSTEM, /**< Fragment Processor Group of U/K calls */
_MALI_UK_GP_SUBSYSTEM, /**< Vertex Processor Group of U/K calls */
_MALI_UK_PROFILING_SUBSYSTEM, /**< Profiling Group of U/K calls */
_MALI_UK_PMM_SUBSYSTEM, /**< Power Management Module Group of U/K calls */
_MALI_UK_VSYNC_SUBSYSTEM, /**< VSYNC Group of U/K calls */
} _mali_uk_subsystem_t;
/** Within a function group each function has its unique sequence number
* to assist in creating a unique identifier for each U/K call.
*
* An ordered pair of numbers selected from
* ( \ref _mali_uk_subsystem_t,\ref _mali_uk_functions) will uniquely identify the
* U/K call across all groups of functions, and all functions. */
typedef enum
{
/** Core functions */
_MALI_UK_OPEN = 0, /**< _mali_ukk_open() */
_MALI_UK_CLOSE, /**< _mali_ukk_close() */
_MALI_UK_WAIT_FOR_NOTIFICATION, /**< _mali_ukk_wait_for_notification() */
_MALI_UK_GET_API_VERSION, /**< _mali_ukk_get_api_version() */
_MALI_UK_POST_NOTIFICATION, /**< _mali_ukk_post_notification() */
_MALI_UK_GET_USER_SETTING, /**< _mali_ukk_get_user_setting() *//**< [out] */
_MALI_UK_GET_USER_SETTINGS, /**< _mali_ukk_get_user_settings() *//**< [out] */
_MALI_UK_STREAM_CREATE, /**< _mali_ukk_stream_create() */
_MALI_UK_FENCE_CREATE_EMPTY, /**< _mali_ukk_fence_create_empty() */
_MALI_UK_FENCE_VALIDATE, /**< _mali_ukk_fence_validate() */
_MALI_UK_COMPOSITOR_PRIORITY, /**< _mali_ukk_compositor_priority() */
/** Memory functions */
_MALI_UK_INIT_MEM = 0, /**< _mali_ukk_init_mem() */
_MALI_UK_TERM_MEM, /**< _mali_ukk_term_mem() */
_MALI_UK_GET_BIG_BLOCK, /**< _mali_ukk_get_big_block() */
_MALI_UK_FREE_BIG_BLOCK, /**< _mali_ukk_free_big_block() */
_MALI_UK_MAP_MEM, /**< _mali_ukk_mem_mmap() */
_MALI_UK_UNMAP_MEM, /**< _mali_ukk_mem_munmap() */
_MALI_UK_QUERY_MMU_PAGE_TABLE_DUMP_SIZE, /**< _mali_ukk_mem_get_mmu_page_table_dump_size() */
_MALI_UK_DUMP_MMU_PAGE_TABLE, /**< _mali_ukk_mem_dump_mmu_page_table() */
_MALI_UK_ATTACH_DMA_BUF, /**< _mali_ukk_attach_dma_buf() */
_MALI_UK_RELEASE_DMA_BUF, /**< _mali_ukk_release_dma_buf() */
_MALI_UK_DMA_BUF_GET_SIZE, /**< _mali_ukk_dma_buf_get_size() */
_MALI_UK_ATTACH_UMP_MEM, /**< _mali_ukk_attach_ump_mem() */
_MALI_UK_RELEASE_UMP_MEM, /**< _mali_ukk_release_ump_mem() */
_MALI_UK_MAP_EXT_MEM, /**< _mali_uku_map_external_mem() */
_MALI_UK_UNMAP_EXT_MEM, /**< _mali_uku_unmap_external_mem() */
_MALI_UK_VA_TO_MALI_PA, /**< _mali_uku_va_to_mali_pa() */
_MALI_UK_MEM_WRITE_SAFE, /**< _mali_uku_mem_write_safe() */
/** Common functions for each core */
_MALI_UK_START_JOB = 0, /**< Start a Fragment/Vertex Processor Job on a core */
_MALI_UK_GET_NUMBER_OF_CORES, /**< Get the number of Fragment/Vertex Processor cores */
_MALI_UK_GET_CORE_VERSION, /**< Get the Fragment/Vertex Processor version compatible with all cores */
/** Fragment Processor Functions */
_MALI_UK_PP_START_JOB = _MALI_UK_START_JOB, /**< _mali_ukk_pp_start_job() */
_MALI_UK_GET_PP_NUMBER_OF_CORES = _MALI_UK_GET_NUMBER_OF_CORES, /**< _mali_ukk_get_pp_number_of_cores() */
_MALI_UK_GET_PP_CORE_VERSION = _MALI_UK_GET_CORE_VERSION, /**< _mali_ukk_get_pp_core_version() */
_MALI_UK_PP_DISABLE_WB, /**< _mali_ukk_pp_job_disable_wb() */
/** Vertex Processor Functions */
_MALI_UK_GP_START_JOB = _MALI_UK_START_JOB, /**< _mali_ukk_gp_start_job() */
_MALI_UK_GET_GP_NUMBER_OF_CORES = _MALI_UK_GET_NUMBER_OF_CORES, /**< _mali_ukk_get_gp_number_of_cores() */
_MALI_UK_GET_GP_CORE_VERSION = _MALI_UK_GET_CORE_VERSION, /**< _mali_ukk_get_gp_core_version() */
_MALI_UK_GP_SUSPEND_RESPONSE, /**< _mali_ukk_gp_suspend_response() */
/** Profiling functions */
_MALI_UK_PROFILING_START = 0, /**< __mali_uku_profiling_start() */
_MALI_UK_PROFILING_ADD_EVENT, /**< __mali_uku_profiling_add_event() */
_MALI_UK_PROFILING_STOP, /**< __mali_uku_profiling_stop() */
_MALI_UK_PROFILING_GET_EVENT, /**< __mali_uku_profiling_get_event() */
_MALI_UK_PROFILING_CLEAR, /**< __mali_uku_profiling_clear() */
_MALI_UK_PROFILING_GET_CONFIG, /**< __mali_uku_profiling_get_config() */
_MALI_UK_PROFILING_REPORT_SW_COUNTERS,/**< __mali_uku_profiling_report_sw_counters() */
/** VSYNC reporting fuctions */
_MALI_UK_VSYNC_EVENT_REPORT = 0, /**< _mali_ukk_vsync_event_report() */
} _mali_uk_functions;
/** @brief Get the size necessary for system info
*
* @see _mali_ukk_get_system_info_size()
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 size; /**< [out] size of buffer necessary to hold system information data, in bytes */
} _mali_uk_get_system_info_size_s;
/** @defgroup _mali_uk_getsysteminfo U/K Get System Info
* @{ */
/**
* Type definition for the core version number.
* Used when returning the version number read from a core
*
* Its format is that of the 32-bit Version register for a particular core.
* Refer to the "Mali200 and MaliGP2 3D Graphics Processor Technical Reference
* Manual", ARM DDI 0415C, for more information.
*/
typedef u32 _mali_core_version;
/**
* Enum values for the different modes the driver can be put in.
* Normal is the default mode. The driver then uses a job queue and takes job objects from the clients.
* Job completion is reported using the _mali_ukk_wait_for_notification call.
* The driver blocks this io command until a job has completed or failed or a timeout occurs.
*
* The 'raw' mode is reserved for future expansion.
*/
typedef enum _mali_driver_mode
{
_MALI_DRIVER_MODE_RAW = 1, /**< Reserved for future expansion */
_MALI_DRIVER_MODE_NORMAL = 2 /**< Normal mode of operation */
} _mali_driver_mode;
/** @brief List of possible cores
*
* add new entries to the end of this enum */
typedef enum _mali_core_type
{
_MALI_GP2 = 2, /**< MaliGP2 Programmable Vertex Processor */
_MALI_200 = 5, /**< Mali200 Programmable Fragment Processor */
_MALI_400_GP = 6, /**< Mali400 Programmable Vertex Processor */
_MALI_400_PP = 7, /**< Mali400 Programmable Fragment Processor */
/* insert new core here, do NOT alter the existing values */
} _mali_core_type;
/** @brief Capabilities of Memory Banks
*
* These may be used to restrict memory banks for certain uses. They may be
* used when access is not possible (e.g. Bus does not support access to it)
* or when access is possible but not desired (e.g. Access is slow).
*
* In the case of 'possible but not desired', there is no way of specifying
* the flags as an optimization hint, so that the memory could be used as a
* last resort.
*
* @see _mali_mem_info
*/
typedef enum _mali_bus_usage
{
_MALI_PP_READABLE = (1<<0), /** Readable by the Fragment Processor */
_MALI_PP_WRITEABLE = (1<<1), /** Writeable by the Fragment Processor */
_MALI_GP_READABLE = (1<<2), /** Readable by the Vertex Processor */
_MALI_GP_WRITEABLE = (1<<3), /** Writeable by the Vertex Processor */
_MALI_CPU_READABLE = (1<<4), /** Readable by the CPU */
_MALI_CPU_WRITEABLE = (1<<5), /** Writeable by the CPU */
_MALI_GP_L2_ALLOC = (1<<6), /** GP allocate mali L2 cache lines*/
_MALI_MMU_READABLE = _MALI_PP_READABLE | _MALI_GP_READABLE, /** Readable by the MMU (including all cores behind it) */
_MALI_MMU_WRITEABLE = _MALI_PP_WRITEABLE | _MALI_GP_WRITEABLE, /** Writeable by the MMU (including all cores behind it) */
} _mali_bus_usage;
typedef enum mali_memory_cache_settings
{
MALI_CACHE_STANDARD = 0,
MALI_CACHE_GP_READ_ALLOCATE = 1,
} mali_memory_cache_settings ;
/** @brief Information about the Mali Memory system
*
* Information is stored in a linked list, which is stored entirely in the
* buffer pointed to by the system_info member of the
* _mali_uk_get_system_info_s arguments provided to _mali_ukk_get_system_info()
*
* Each element of the linked list describes a single Mali Memory bank.
* Each allocation can only come from one bank, and will not cross multiple
* banks.
*
* On Mali-MMU systems, there is only one bank, which describes the maximum
* possible address range that could be allocated (which may be much less than
* the available physical memory)
*
* The flags member describes the capabilities of the memory. It is an error
* to attempt to build a job for a particular core (PP or GP) when the memory
* regions used do not have the capabilities for supporting that core. This
* would result in a job abort from the Device Driver.
*
* For example, it is correct to build a PP job where read-only data structures
* are taken from a memory with _MALI_PP_READABLE set and
* _MALI_PP_WRITEABLE clear, and a framebuffer with _MALI_PP_WRITEABLE set and
* _MALI_PP_READABLE clear. However, it would be incorrect to use a framebuffer
* where _MALI_PP_WRITEABLE is clear.
*/
typedef struct _mali_mem_info
{
u32 size; /**< Size of the memory bank in bytes */
_mali_bus_usage flags; /**< Capabilitiy flags of the memory */
u32 maximum_order_supported; /**< log2 supported size */
u32 identifier; /* mali_memory_cache_settings cache_settings; */
struct _mali_mem_info * next; /**< Next List Link */
} _mali_mem_info;
/** @} */ /* end group _mali_uk_core */
/** @defgroup _mali_uk_gp U/K Vertex Processor
* @{ */
/** @defgroup _mali_uk_gp_suspend_response_s Vertex Processor Suspend Response
* @{ */
/** @brief Arguments for _mali_ukk_gp_suspend_response()
*
* When _mali_wait_for_notification() receives notification that a
* Vertex Processor job was suspended, you need to send a response to indicate
* what needs to happen with this job. You can either abort or resume the job.
*
* - set @c code to indicate response code. This is either @c _MALIGP_JOB_ABORT or
* @c _MALIGP_JOB_RESUME_WITH_NEW_HEAP to indicate you will provide a new heap
* for the job that will resolve the out of memory condition for the job.
* - copy the @c cookie value from the @c _mali_uk_gp_job_suspended_s notification;
* this is an identifier for the suspended job
* - set @c arguments[0] and @c arguments[1] to zero if you abort the job. If
* you resume it, @c argument[0] should specify the Mali start address for the new
* heap and @c argument[1] the Mali end address of the heap.
* - pass in the user-kernel context @c ctx that was returned from _mali_ukk_open()
*
*/
typedef enum _maligp_job_suspended_response_code
{
_MALIGP_JOB_ABORT, /**< Abort the Vertex Processor job */
_MALIGP_JOB_RESUME_WITH_NEW_HEAP /**< Resume the Vertex Processor job with a new heap */
} _maligp_job_suspended_response_code;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 cookie; /**< [in] cookie from the _mali_uk_gp_job_suspended_s notification */
_maligp_job_suspended_response_code code; /**< [in] abort or resume response code, see \ref _maligp_job_suspended_response_code */
u32 arguments[2]; /**< [in] 0 when aborting a job. When resuming a job, the Mali start and end address for a new heap to resume the job with */
} _mali_uk_gp_suspend_response_s;
/** @} */ /* end group _mali_uk_gp_suspend_response_s */
/** @defgroup _mali_uk_gpstartjob_s Vertex Processor Start Job
* @{ */
/** @brief Status indicating the result of starting a Vertex or Fragment processor job */
typedef enum
{
_MALI_UK_START_JOB_STARTED, /**< Job started */
_MALI_UK_START_JOB_NOT_STARTED_DO_REQUEUE /**< Job could not be started at this time. Try starting the job again */
} _mali_uk_start_job_status;
/** @brief Status indicating the result of the execution of a Vertex or Fragment processor job */
typedef enum
{
_MALI_UK_JOB_STATUS_END_SUCCESS = 1<<(16+0),
_MALI_UK_JOB_STATUS_END_OOM = 1<<(16+1),
_MALI_UK_JOB_STATUS_END_ABORT = 1<<(16+2),
_MALI_UK_JOB_STATUS_END_TIMEOUT_SW = 1<<(16+3),
_MALI_UK_JOB_STATUS_END_HANG = 1<<(16+4),
_MALI_UK_JOB_STATUS_END_SEG_FAULT = 1<<(16+5),
_MALI_UK_JOB_STATUS_END_ILLEGAL_JOB = 1<<(16+6),
_MALI_UK_JOB_STATUS_END_UNKNOWN_ERR = 1<<(16+7),
_MALI_UK_JOB_STATUS_END_SHUTDOWN = 1<<(16+8),
_MALI_UK_JOB_STATUS_END_SYSTEM_UNUSABLE = 1<<(16+9)
} _mali_uk_job_status;
#define MALIGP2_NUM_REGS_FRAME (6)
/** @brief Arguments for _mali_ukk_gp_start_job()
*
* To start a Vertex Processor job
* - associate the request with a reference to a @c mali_gp_job_info by setting
* user_job_ptr to the address of the @c mali_gp_job_info of the job.
* - set @c priority to the priority of the @c mali_gp_job_info
* - specify a timeout for the job by setting @c watchdog_msecs to the number of
* milliseconds the job is allowed to run. Specifying a value of 0 selects the
* default timeout in use by the device driver.
* - copy the frame registers from the @c mali_gp_job_info into @c frame_registers.
* - set the @c perf_counter_flag, @c perf_counter_src0 and @c perf_counter_src1 to zero
* for a non-instrumented build. For an instrumented build you can use up
* to two performance counters. Set the corresponding bit in @c perf_counter_flag
* to enable them. @c perf_counter_src0 and @c perf_counter_src1 specify
* the source of what needs to get counted (e.g. number of vertex loader
* cache hits). For source id values, see ARM DDI0415A, Table 3-60.
* - pass in the user-kernel context @c ctx that was returned from _mali_ukk_open()
*
* When @c _mali_ukk_gp_start_job() returns @c _MALI_OSK_ERR_OK, status contains the
* result of the request (see \ref _mali_uk_start_job_status). If the job could
* not get started (@c _MALI_UK_START_JOB_NOT_STARTED_DO_REQUEUE) it should be
* tried again.
*
* After the job has started, @c _mali_wait_for_notification() will be notified
* that the job finished or got suspended. It may get suspended due to
* resource shortage. If it finished (see _mali_ukk_wait_for_notification())
* the notification will contain a @c _mali_uk_gp_job_finished_s result. If
* it got suspended the notification will contain a @c _mali_uk_gp_job_suspended_s
* result.
*
* The @c _mali_uk_gp_job_finished_s contains the job status (see \ref _mali_uk_job_status),
* the number of milliseconds the job took to render, and values of core registers
* when the job finished (irq status, performance counters, renderer list
* address). A job has finished succesfully when its status is
* @c _MALI_UK_JOB_STATUS_FINISHED. If the hardware detected a timeout while rendering
* the job, or software detected the job is taking more than watchdog_msecs to
* complete, the status will indicate @c _MALI_UK_JOB_STATUS_HANG.
* If the hardware detected a bus error while accessing memory associated with the
* job, status will indicate @c _MALI_UK_JOB_STATUS_SEG_FAULT.
* status will indicate @c _MALI_UK_JOB_STATUS_NOT_STARTED if the driver had to
* stop the job but the job didn't start on the hardware yet, e.g. when the
* driver shutdown.
*
* In case the job got suspended, @c _mali_uk_gp_job_suspended_s contains
* the @c user_job_ptr identifier used to start the job with, the @c reason
* why the job stalled (see \ref _maligp_job_suspended_reason) and a @c cookie
* to identify the core on which the job stalled. This @c cookie will be needed
* when responding to this nofication by means of _mali_ukk_gp_suspend_response().
* (see _mali_ukk_gp_suspend_response()). The response is either to abort or
* resume the job. If the job got suspended due to an out of memory condition
* you may be able to resolve this by providing more memory and resuming the job.
*
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 user_job_ptr; /**< [in] identifier for the job in user space, a @c mali_gp_job_info* */
u32 priority; /**< [in] job priority. A lower number means higher priority */
u32 frame_registers[MALIGP2_NUM_REGS_FRAME]; /**< [in] core specific registers associated with this job */
u32 perf_counter_flag; /**< [in] bitmask indicating which performance counters to enable, see \ref _MALI_PERFORMANCE_COUNTER_FLAG_SRC0_ENABLE and related macro definitions */
u32 perf_counter_src0; /**< [in] source id for performance counter 0 (see ARM DDI0415A, Table 3-60) */
u32 perf_counter_src1; /**< [in] source id for performance counter 1 (see ARM DDI0415A, Table 3-60) */
u32 frame_builder_id; /**< [in] id of the originating frame builder */
u32 flush_id; /**< [in] flush id within the originating frame builder */
} _mali_uk_gp_start_job_s;
#define _MALI_PERFORMANCE_COUNTER_FLAG_SRC0_ENABLE (1<<0) /**< Enable performance counter SRC0 for a job */
#define _MALI_PERFORMANCE_COUNTER_FLAG_SRC1_ENABLE (1<<1) /**< Enable performance counter SRC1 for a job */
/** @} */ /* end group _mali_uk_gpstartjob_s */
typedef struct
{
u32 user_job_ptr; /**< [out] identifier for the job in user space */
_mali_uk_job_status status; /**< [out] status of finished job */
u32 heap_current_addr; /**< [out] value of the GP PLB PL heap start address register */
u32 perf_counter0; /**< [out] value of perfomance counter 0 (see ARM DDI0415A) */
u32 perf_counter1; /**< [out] value of perfomance counter 1 (see ARM DDI0415A) */
} _mali_uk_gp_job_finished_s;
typedef enum _maligp_job_suspended_reason
{
_MALIGP_JOB_SUSPENDED_OUT_OF_MEMORY /**< Polygon list builder unit (PLBU) has run out of memory */
} _maligp_job_suspended_reason;
typedef struct
{
u32 user_job_ptr; /**< [out] identifier for the job in user space */
_maligp_job_suspended_reason reason; /**< [out] reason why the job stalled */
u32 cookie; /**< [out] identifier for the core in kernel space on which the job stalled */
} _mali_uk_gp_job_suspended_s;
/** @} */ /* end group _mali_uk_gp */
/** @defgroup _mali_uk_pp U/K Fragment Processor
* @{ */
#define _MALI_PP_MAX_SUB_JOBS 8
#define _MALI_PP_MAX_FRAME_REGISTERS ((0x058/4)+1)
#define _MALI_PP_MAX_WB_REGISTERS ((0x02C/4)+1)
#define _MALI_DLBU_MAX_REGISTERS 4
/** Flag for _mali_uk_pp_start_job_s */
#define _MALI_PP_JOB_FLAG_NO_NOTIFICATION (1<<0)
#define _MALI_PP_JOB_FLAG_BARRIER (1<<1)
#define _MALI_PP_JOB_FLAG_FENCE (1<<2)
#define _MALI_PP_JOB_FLAG_EMPTY_FENCE (1<<3)
/** @defgroup _mali_uk_ppstartjob_s Fragment Processor Start Job
* @{ */
/** @brief Arguments for _mali_ukk_pp_start_job()
*
* To start a Fragment Processor job
* - associate the request with a reference to a mali_pp_job by setting
* @c user_job_ptr to the address of the @c mali_pp_job of the job.
* - set @c priority to the priority of the mali_pp_job
* - specify a timeout for the job by setting @c watchdog_msecs to the number of
* milliseconds the job is allowed to run. Specifying a value of 0 selects the
* default timeout in use by the device driver.
* - copy the frame registers from the @c mali_pp_job into @c frame_registers.
* For MALI200 you also need to copy the write back 0,1 and 2 registers.
* - set the @c perf_counter_flag, @c perf_counter_src0 and @c perf_counter_src1 to zero
* for a non-instrumented build. For an instrumented build you can use up
* to two performance counters. Set the corresponding bit in @c perf_counter_flag
* to enable them. @c perf_counter_src0 and @c perf_counter_src1 specify
* the source of what needs to get counted (e.g. number of vertex loader
* cache hits). For source id values, see ARM DDI0415A, Table 3-60.
* - pass in the user-kernel context in @c ctx that was returned from _mali_ukk_open()
*
* When _mali_ukk_pp_start_job() returns @c _MALI_OSK_ERR_OK, @c status contains the
* result of the request (see \ref _mali_uk_start_job_status). If the job could
* not get started (@c _MALI_UK_START_JOB_NOT_STARTED_DO_REQUEUE) it should be
* tried again.
*
* After the job has started, _mali_wait_for_notification() will be notified
* when the job finished. The notification will contain a
* @c _mali_uk_pp_job_finished_s result. It contains the @c user_job_ptr
* identifier used to start the job with, the job @c status (see \ref _mali_uk_job_status),
* the number of milliseconds the job took to render, and values of core registers
* when the job finished (irq status, performance counters, renderer list
* address). A job has finished succesfully when its status is
* @c _MALI_UK_JOB_STATUS_FINISHED. If the hardware detected a timeout while rendering
* the job, or software detected the job is taking more than @c watchdog_msecs to
* complete, the status will indicate @c _MALI_UK_JOB_STATUS_HANG.
* If the hardware detected a bus error while accessing memory associated with the
* job, status will indicate @c _MALI_UK_JOB_STATUS_SEG_FAULT.
* status will indicate @c _MALI_UK_JOB_STATUS_NOT_STARTED if the driver had to
* stop the job but the job didn't start on the hardware yet, e.g. when the
* driver shutdown.
*
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 user_job_ptr; /**< [in] identifier for the job in user space */
u32 priority; /**< [in] job priority. A lower number means higher priority */
u32 frame_registers[_MALI_PP_MAX_FRAME_REGISTERS]; /**< [in] core specific registers associated with first sub job, see ARM DDI0415A */
u32 frame_registers_addr_frame[_MALI_PP_MAX_SUB_JOBS - 1]; /**< [in] ADDR_FRAME registers for sub job 1-7 */
u32 frame_registers_addr_stack[_MALI_PP_MAX_SUB_JOBS - 1]; /**< [in] ADDR_STACK registers for sub job 1-7 */
u32 wb0_registers[_MALI_PP_MAX_WB_REGISTERS];
u32 wb1_registers[_MALI_PP_MAX_WB_REGISTERS];
u32 wb2_registers[_MALI_PP_MAX_WB_REGISTERS];
u32 dlbu_registers[_MALI_DLBU_MAX_REGISTERS]; /**< [in] Dynamic load balancing unit registers */
u32 num_cores; /**< [in] Number of cores to set up (valid range: 1-4) */
u32 perf_counter_flag; /**< [in] bitmask indicating which performance counters to enable, see \ref _MALI_PERFORMANCE_COUNTER_FLAG_SRC0_ENABLE and related macro definitions */
u32 perf_counter_src0; /**< [in] source id for performance counter 0 (see ARM DDI0415A, Table 3-60) */
u32 perf_counter_src1; /**< [in] source id for performance counter 1 (see ARM DDI0415A, Table 3-60) */
u32 frame_builder_id; /**< [in] id of the originating frame builder */
u32 flush_id; /**< [in] flush id within the originating frame builder */
u32 flags; /**< [in] See _MALI_PP_JOB_FLAG_* for a list of avaiable flags */
s32 fence; /**< [in,out] Fence to wait on / fence that will be signalled on job completion, if _MALI_PP_JOB_FLAG_FENCE is set */
s32 stream; /**< [in] Steam identifier if _MALI_PP_JOB_FLAG_FENCE, an empty fence to use for this job if _MALI_PP_JOB_FLAG_EMPTY_FENCE is set */
u32 num_memory_cookies; /**< [in] number of memory cookies attached to job */
u32 *memory_cookies; /**< [in] memory cookies attached to job */
} _mali_uk_pp_start_job_s;
/** @} */ /* end group _mali_uk_ppstartjob_s */
typedef struct
{
u32 user_job_ptr; /**< [out] identifier for the job in user space */
_mali_uk_job_status status; /**< [out] status of finished job */
u32 perf_counter0[_MALI_PP_MAX_SUB_JOBS]; /**< [out] value of perfomance counter 0 (see ARM DDI0415A), one for each sub job */
u32 perf_counter1[_MALI_PP_MAX_SUB_JOBS]; /**< [out] value of perfomance counter 1 (see ARM DDI0415A), one for each sub job */
} _mali_uk_pp_job_finished_s;
typedef struct
{
u32 number_of_enabled_cores; /**< [out] the new number of enabled cores */
} _mali_uk_pp_num_cores_changed_s;
/**
* Flags to indicate write-back units
*/
typedef enum
{
_MALI_UK_PP_JOB_WB0 = 1,
_MALI_UK_PP_JOB_WB1 = 2,
_MALI_UK_PP_JOB_WB2 = 4,
} _mali_uk_pp_job_wbx_flag;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 fb_id; /**< [in] Frame builder ID of job to disable WB units for */
u32 flush_id; /**< [in] Flush ID of job to disable WB units for */
_mali_uk_pp_job_wbx_flag wbx; /**< [in] write-back units to disable */
} _mali_uk_pp_disable_wb_s;
/** @} */ /* end group _mali_uk_pp */
/** @addtogroup _mali_uk_core U/K Core
* @{ */
/** @defgroup _mali_uk_waitfornotification_s Wait For Notification
* @{ */
/** @brief Notification type encodings
*
* Each Notification type is an ordered pair of (subsystem,id), and is unique.
*
* The encoding of subsystem,id into a 32-bit word is:
* encoding = (( subsystem << _MALI_NOTIFICATION_SUBSYSTEM_SHIFT ) & _MALI_NOTIFICATION_SUBSYSTEM_MASK)
* | (( id << _MALI_NOTIFICATION_ID_SHIFT ) & _MALI_NOTIFICATION_ID_MASK)
*
* @see _mali_uk_wait_for_notification_s
*/
typedef enum
{
/** core notifications */
_MALI_NOTIFICATION_CORE_SHUTDOWN_IN_PROGRESS = (_MALI_UK_CORE_SUBSYSTEM << 16) | 0x20,
_MALI_NOTIFICATION_APPLICATION_QUIT = (_MALI_UK_CORE_SUBSYSTEM << 16) | 0x40,
_MALI_NOTIFICATION_SETTINGS_CHANGED = (_MALI_UK_CORE_SUBSYSTEM << 16) | 0x80,
/** Fragment Processor notifications */
_MALI_NOTIFICATION_PP_FINISHED = (_MALI_UK_PP_SUBSYSTEM << 16) | 0x10,
_MALI_NOTIFICATION_PP_NUM_CORE_CHANGE = (_MALI_UK_PP_SUBSYSTEM << 16) | 0x20,
/** Vertex Processor notifications */
_MALI_NOTIFICATION_GP_FINISHED = (_MALI_UK_GP_SUBSYSTEM << 16) | 0x10,
_MALI_NOTIFICATION_GP_STALLED = (_MALI_UK_GP_SUBSYSTEM << 16) | 0x20,
} _mali_uk_notification_type;
/** to assist in splitting up 32-bit notification value in subsystem and id value */
#define _MALI_NOTIFICATION_SUBSYSTEM_MASK 0xFFFF0000
#define _MALI_NOTIFICATION_SUBSYSTEM_SHIFT 16
#define _MALI_NOTIFICATION_ID_MASK 0x0000FFFF
#define _MALI_NOTIFICATION_ID_SHIFT 0
/** @brief Enumeration of possible settings which match mali_setting_t in user space
*
*
*/
typedef enum
{
_MALI_UK_USER_SETTING_SW_EVENTS_ENABLE = 0,
_MALI_UK_USER_SETTING_COLORBUFFER_CAPTURE_ENABLED,
_MALI_UK_USER_SETTING_DEPTHBUFFER_CAPTURE_ENABLED,
_MALI_UK_USER_SETTING_STENCILBUFFER_CAPTURE_ENABLED,
_MALI_UK_USER_SETTING_PER_TILE_COUNTERS_CAPTURE_ENABLED,
_MALI_UK_USER_SETTING_BUFFER_CAPTURE_COMPOSITOR,
_MALI_UK_USER_SETTING_BUFFER_CAPTURE_WINDOW,
_MALI_UK_USER_SETTING_BUFFER_CAPTURE_OTHER,
_MALI_UK_USER_SETTING_BUFFER_CAPTURE_N_FRAMES,
_MALI_UK_USER_SETTING_BUFFER_CAPTURE_RESIZE_FACTOR,
_MALI_UK_USER_SETTING_SW_COUNTER_ENABLED,
_MALI_UK_USER_SETTING_MAX,
} _mali_uk_user_setting_t;
/* See mali_user_settings_db.c */
extern const char *_mali_uk_user_setting_descriptions[];
#define _MALI_UK_USER_SETTING_DESCRIPTIONS \
{ \
"sw_events_enable", \
"colorbuffer_capture_enable", \
"depthbuffer_capture_enable", \
"stencilbuffer_capture_enable", \
"per_tile_counters_enable", \
"buffer_capture_compositor", \
"buffer_capture_window", \
"buffer_capture_other", \
"buffer_capture_n_frames", \
"buffer_capture_resize_factor", \
"sw_counters_enable", \
};
/** @brief struct to hold the value to a particular setting as seen in the kernel space
*/
typedef struct
{
_mali_uk_user_setting_t setting;
u32 value;
} _mali_uk_settings_changed_s;
/** @brief Arguments for _mali_ukk_wait_for_notification()
*
* On successful return from _mali_ukk_wait_for_notification(), the members of
* this structure will indicate the reason for notification.
*
* Specifically, the source of the notification can be identified by the
* subsystem and id fields of the mali_uk_notification_type in the code.type
* member. The type member is encoded in a way to divide up the types into a
* subsystem field, and a per-subsystem ID field. See
* _mali_uk_notification_type for more information.
*
* Interpreting the data union member depends on the notification type:
*
* - type == _MALI_NOTIFICATION_CORE_SHUTDOWN_IN_PROGRESS
* - The kernel side is shutting down. No further
* _mali_uk_wait_for_notification() calls should be made.
* - In this case, the value of the data union member is undefined.
* - This is used to indicate to the user space client that it should close
* the connection to the Mali Device Driver.
* - type == _MALI_NOTIFICATION_PP_FINISHED
* - The notification data is of type _mali_uk_pp_job_finished_s. It contains the user_job_ptr
* identifier used to start the job with, the job status, the number of milliseconds the job took to render,
* and values of core registers when the job finished (irq status, performance counters, renderer list
* address).
* - A job has finished succesfully when its status member is _MALI_UK_JOB_STATUS_FINISHED.
* - If the hardware detected a timeout while rendering the job, or software detected the job is
* taking more than watchdog_msecs (see _mali_ukk_pp_start_job()) to complete, the status member will
* indicate _MALI_UK_JOB_STATUS_HANG.
* - If the hardware detected a bus error while accessing memory associated with the job, status will
* indicate _MALI_UK_JOB_STATUS_SEG_FAULT.
* - Status will indicate MALI_UK_JOB_STATUS_NOT_STARTED if the driver had to stop the job but the job
* didn't start the hardware yet, e.g. when the driver closes.
* - type == _MALI_NOTIFICATION_GP_FINISHED
* - The notification data is of type _mali_uk_gp_job_finished_s. The notification is similar to that of
* type == _MALI_NOTIFICATION_PP_FINISHED, except that several other GP core register values are returned.
* The status values have the same meaning for type == _MALI_NOTIFICATION_PP_FINISHED.
* - type == _MALI_NOTIFICATION_GP_STALLED
* - The nofication data is of type _mali_uk_gp_job_suspended_s. It contains the user_job_ptr
* identifier used to start the job with, the reason why the job stalled and a cookie to identify the core on
* which the job stalled.
* - The reason member of gp_job_suspended is set to _MALIGP_JOB_SUSPENDED_OUT_OF_MEMORY
* when the polygon list builder unit has run out of memory.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_uk_notification_type type; /**< [out] Type of notification available */
union
{
_mali_uk_gp_job_suspended_s gp_job_suspended;/**< [out] Notification data for _MALI_NOTIFICATION_GP_STALLED notification type */
_mali_uk_gp_job_finished_s gp_job_finished; /**< [out] Notification data for _MALI_NOTIFICATION_GP_FINISHED notification type */
_mali_uk_pp_job_finished_s pp_job_finished; /**< [out] Notification data for _MALI_NOTIFICATION_PP_FINISHED notification type */
_mali_uk_settings_changed_s setting_changed;/**< [out] Notification data for _MALI_NOTIFICAATION_SETTINGS_CHANGED notification type */
} data;
} _mali_uk_wait_for_notification_s;
/** @brief Arguments for _mali_ukk_post_notification()
*
* Posts the specified notification to the notification queue for this application.
* This is used to send a quit message to the callback thread.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_uk_notification_type type; /**< [in] Type of notification to post */
} _mali_uk_post_notification_s;
/** @} */ /* end group _mali_uk_waitfornotification_s */
/** @defgroup _mali_uk_getapiversion_s Get API Version
* @{ */
/** helpers for Device Driver API version handling */
/** @brief Encode a version ID from a 16-bit input
*
* @note the input is assumed to be 16 bits. It must not exceed 16 bits. */
#define _MAKE_VERSION_ID(x) (((x) << 16UL) | (x))
/** @brief Check whether a 32-bit value is likely to be Device Driver API
* version ID. */
#define _IS_VERSION_ID(x) (((x) & 0xFFFF) == (((x) >> 16UL) & 0xFFFF))
/** @brief Decode a 16-bit version number from a 32-bit Device Driver API version
* ID */
#define _GET_VERSION(x) (((x) >> 16UL) & 0xFFFF)
/** @brief Determine whether two 32-bit encoded version IDs match */
#define _IS_API_MATCH(x, y) (IS_VERSION_ID((x)) && IS_VERSION_ID((y)) && (GET_VERSION((x)) == GET_VERSION((y))))
/**
* API version define.
* Indicates the version of the kernel API
* The version is a 16bit integer incremented on each API change.
* The 16bit integer is stored twice in a 32bit integer
* For example, for version 1 the value would be 0x00010001
*/
#define _MALI_API_VERSION 26
#define _MALI_UK_API_VERSION _MAKE_VERSION_ID(_MALI_API_VERSION)
/**
* The API version is a 16-bit integer stored in both the lower and upper 16-bits
* of a 32-bit value. The 16-bit API version value is incremented on each API
* change. Version 1 would be 0x00010001. Used in _mali_uk_get_api_version_s.
*/
typedef u32 _mali_uk_api_version;
/** @brief Arguments for _mali_uk_get_api_version()
*
* The user-side interface version must be written into the version member,
* encoded using _MAKE_VERSION_ID(). It will be compared to the API version of
* the kernel-side interface.
*
* On successful return, the version member will be the API version of the
* kernel-side interface. _MALI_UK_API_VERSION macro defines the current version
* of the API.
*
* The compatible member must be checked to see if the version of the user-side
* interface is compatible with the kernel-side interface, since future versions
* of the interface may be backwards compatible.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_uk_api_version version; /**< [in,out] API version of user-side interface. */
int compatible; /**< [out] @c 1 when @version is compatible, @c 0 otherwise */
} _mali_uk_get_api_version_s;
/** @} */ /* end group _mali_uk_getapiversion_s */
/** @defgroup _mali_uk_get_user_settings_s Get user space settings
* @{ */
/** @brief struct to keep the matching values of the user space settings within certain context
*
* Each member of the settings array corresponds to a matching setting in the user space and its value is the value
* of that particular setting.
*
* All settings are given reference to the context pointed to by the ctx pointer.
*
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 settings[_MALI_UK_USER_SETTING_MAX]; /**< [out] The values for all settings */
} _mali_uk_get_user_settings_s;
/** @brief struct to hold the value of a particular setting from the user space within a given context
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_uk_user_setting_t setting; /**< [in] setting to get */
u32 value; /**< [out] value of setting */
} _mali_uk_get_user_setting_s;
/** @} */ /* end group _mali_uk_get_user_settings_s */
/** @brief Arguments for _mali_ukk_compositor_priority */
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
} _mali_uk_compositor_priority_s;
/** @} */ /* end group _mali_uk_core */
/** @defgroup _mali_uk_memory U/K Memory
* @{ */
/** @brief Arguments for _mali_ukk_init_mem(). */
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 mali_address_base; /**< [out] start of MALI address space */
u32 memory_size; /**< [out] total MALI address space available */
} _mali_uk_init_mem_s;
/** @brief Arguments for _mali_ukk_term_mem(). */
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
} _mali_uk_term_mem_s;
/** Flag for _mali_uk_map_external_mem_s, _mali_uk_attach_ump_mem_s and _mali_uk_attach_dma_buf_s */
#define _MALI_MAP_EXTERNAL_MAP_GUARD_PAGE (1<<0)
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 phys_addr; /**< [in] physical address */
u32 size; /**< [in] size */
u32 mali_address; /**< [in] mali address to map the physical memory to */
u32 rights; /**< [in] rights necessary for accessing memory */
u32 flags; /**< [in] flags, see \ref _MALI_MAP_EXTERNAL_MAP_GUARD_PAGE */
u32 cookie; /**< [out] identifier for mapped memory object in kernel space */
} _mali_uk_map_external_mem_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 cookie; /**< [out] identifier for mapped memory object in kernel space */
} _mali_uk_unmap_external_mem_s;
/** @note This is identical to _mali_uk_map_external_mem_s above, however phys_addr is replaced by memory descriptor */
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 mem_fd; /**< [in] Memory descriptor */
u32 size; /**< [in] size */
u32 mali_address; /**< [in] mali address to map the physical memory to */
u32 rights; /**< [in] rights necessary for accessing memory */
u32 flags; /**< [in] flags, see \ref _MALI_MAP_EXTERNAL_MAP_GUARD_PAGE */
u32 cookie; /**< [out] identifier for mapped memory object in kernel space */
} _mali_uk_attach_dma_buf_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 mem_fd; /**< [in] Memory descriptor */
u32 size; /**< [out] size */
} _mali_uk_dma_buf_get_size_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 cookie; /**< [in] identifier for mapped memory object in kernel space */
} _mali_uk_release_dma_buf_s;
/** @note This is identical to _mali_uk_map_external_mem_s above, however phys_addr is replaced by secure_id */
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 secure_id; /**< [in] secure id */
u32 size; /**< [in] size */
u32 mali_address; /**< [in] mali address to map the physical memory to */
u32 rights; /**< [in] rights necessary for accessing memory */
u32 flags; /**< [in] flags, see \ref _MALI_MAP_EXTERNAL_MAP_GUARD_PAGE */
u32 cookie; /**< [out] identifier for mapped memory object in kernel space */
} _mali_uk_attach_ump_mem_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 cookie; /**< [in] identifier for mapped memory object in kernel space */
} _mali_uk_release_ump_mem_s;
/** @brief Arguments for _mali_ukk_va_to_mali_pa()
*
* if size is zero or not a multiple of the system's page size, it will be
* rounded up to the next multiple of the page size. This will occur before
* any other use of the size parameter.
*
* if va is not PAGE_SIZE aligned, it will be rounded down to the next page
* boundary.
*
* The range (va) to ((u32)va)+(size-1) inclusive will be checked for physical
* contiguity.
*
* The implementor will check that the entire physical range is allowed to be mapped
* into user-space.
*
* Failure will occur if either of the above are not satisfied.
*
* Otherwise, the physical base address of the range is returned through pa,
* va is updated to be page aligned, and size is updated to be a non-zero
* multiple of the system's pagesize.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
void *va; /**< [in,out] Virtual address of the start of the range */
u32 pa; /**< [out] Physical base address of the range */
u32 size; /**< [in,out] Size of the range, in bytes. */
} _mali_uk_va_to_mali_pa_s;
/**
* @brief Arguments for _mali_uk[uk]_mem_write_safe()
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
const void *src; /**< [in] Pointer to source data */
void *dest; /**< [in] Destination Mali buffer */
u32 size; /**< [in,out] Number of bytes to write/copy on input, number of bytes actually written/copied on output */
} _mali_uk_mem_write_safe_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 size; /**< [out] size of MMU page table information (registers + page tables) */
} _mali_uk_query_mmu_page_table_dump_size_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 size; /**< [in] size of buffer to receive mmu page table information */
void *buffer; /**< [in,out] buffer to receive mmu page table information */
u32 register_writes_size; /**< [out] size of MMU register dump */
u32 *register_writes; /**< [out] pointer within buffer where MMU register dump is stored */
u32 page_table_dump_size; /**< [out] size of MMU page table dump */
u32 *page_table_dump; /**< [out] pointer within buffer where MMU page table dump is stored */
} _mali_uk_dump_mmu_page_table_s;
/** @} */ /* end group _mali_uk_memory */
/** @addtogroup _mali_uk_pp U/K Fragment Processor
* @{ */
/** @brief Arguments for _mali_ukk_get_pp_number_of_cores()
*
* - pass in the user-kernel context @c ctx that was returned from _mali_ukk_open()
* - Upon successful return from _mali_ukk_get_pp_number_of_cores(), @c number_of_cores
* will contain the number of Fragment Processor cores in the system.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 number_of_total_cores; /**< [out] Total number of Fragment Processor cores in the system */
u32 number_of_enabled_cores; /**< [out] Number of enabled Fragment Processor cores */
} _mali_uk_get_pp_number_of_cores_s;
/** @brief Arguments for _mali_ukk_get_pp_core_version()
*
* - pass in the user-kernel context @c ctx that was returned from _mali_ukk_open()
* - Upon successful return from _mali_ukk_get_pp_core_version(), @c version contains
* the version that all Fragment Processor cores are compatible with.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_core_version version; /**< [out] version returned from core, see \ref _mali_core_version */
} _mali_uk_get_pp_core_version_s;
/** @} */ /* end group _mali_uk_pp */
/** @addtogroup _mali_uk_gp U/K Vertex Processor
* @{ */
/** @brief Arguments for _mali_ukk_get_gp_number_of_cores()
*
* - pass in the user-kernel context @c ctx that was returned from _mali_ukk_open()
* - Upon successful return from _mali_ukk_get_gp_number_of_cores(), @c number_of_cores
* will contain the number of Vertex Processor cores in the system.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 number_of_cores; /**< [out] number of Vertex Processor cores in the system */
} _mali_uk_get_gp_number_of_cores_s;
/** @brief Arguments for _mali_ukk_get_gp_core_version()
*
* - pass in the user-kernel context @c ctx that was returned from _mali_ukk_open()
* - Upon successful return from _mali_ukk_get_gp_core_version(), @c version contains
* the version that all Vertex Processor cores are compatible with.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_core_version version; /**< [out] version returned from core, see \ref _mali_core_version */
} _mali_uk_get_gp_core_version_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 limit; /**< [in,out] The desired limit for number of events to record on input, actual limit on output */
} _mali_uk_profiling_start_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 event_id; /**< [in] event id to register (see enum mali_profiling_events for values) */
u32 data[5]; /**< [in] event specific data */
} _mali_uk_profiling_add_event_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 count; /**< [out] The number of events sampled */
} _mali_uk_profiling_stop_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32 index; /**< [in] which index to get (starting at zero) */
u64 timestamp; /**< [out] timestamp of event */
u32 event_id; /**< [out] event id of event (see enum mali_profiling_events for values) */
u32 data[5]; /**< [out] event specific data */
} _mali_uk_profiling_get_event_s;
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
} _mali_uk_profiling_clear_s;
/** @} */ /* end group _mali_uk_gp */
/** @addtogroup _mali_uk_memory U/K Memory
* @{ */
/** @brief Arguments to _mali_ukk_mem_mmap()
*
* Use of the phys_addr member depends on whether the driver is compiled for
* Mali-MMU or nonMMU:
* - in the nonMMU case, this is the physical address of the memory as seen by
* the CPU (which may be a constant offset from that used by Mali)
* - in the MMU case, this is the Mali Virtual base address of the memory to
* allocate, and the particular physical pages used to back the memory are
* entirely determined by _mali_ukk_mem_mmap(). The details of the physical pages
* are not reported to user-space for security reasons.
*
* The cookie member must be stored for use later when freeing the memory by
* calling _mali_ukk_mem_munmap(). In the Mali-MMU case, the cookie is secure.
*
* The ukk_private word must be set to zero when calling from user-space. On
* Kernel-side, the OS implementation of the U/K interface can use it to
* communicate data to the OS implementation of the OSK layer. In particular,
* _mali_ukk_get_big_block() directly calls _mali_ukk_mem_mmap directly, and
* will communicate its own ukk_private word through the ukk_private member
* here. The common code itself will not inspect or modify the ukk_private
* word, and so it may be safely used for whatever purposes necessary to
* integrate Mali Memory handling into the OS.
*
* The uku_private member is currently reserved for use by the user-side
* implementation of the U/K interface. Its value must be zero.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
void *mapping; /**< [out] Returns user-space virtual address for the mapping */
u32 size; /**< [in] Size of the requested mapping */
u32 phys_addr; /**< [in] Physical address - could be offset, depending on caller+callee convention */
u32 cookie; /**< [out] Returns a cookie for use in munmap calls */
void *uku_private; /**< [in] User-side Private word used by U/K interface */
void *ukk_private; /**< [in] Kernel-side Private word used by U/K interface */
mali_memory_cache_settings cache_settings; /**< [in] Option to set special cache flags, tuning L2 efficency */
} _mali_uk_mem_mmap_s;
/** @brief Arguments to _mali_ukk_mem_munmap()
*
* The cookie and mapping members must be that returned from the same previous
* call to _mali_ukk_mem_mmap(). The size member must correspond to cookie
* and mapping - that is, it must be the value originally supplied to a call to
* _mali_ukk_mem_mmap that returned the values of mapping and cookie.
*
* An error will be returned if an attempt is made to unmap only part of the
* originally obtained range, or to unmap more than was originally obtained.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
void *mapping; /**< [in] The mapping returned from mmap call */
u32 size; /**< [in] The size passed to mmap call */
u32 cookie; /**< [in] Cookie from mmap call */
} _mali_uk_mem_munmap_s;
/** @} */ /* end group _mali_uk_memory */
/** @defgroup _mali_uk_vsync U/K VSYNC Wait Reporting Module
* @{ */
/** @brief VSYNC events
*
* These events are reported when DDK starts to wait for vsync and when the
* vsync has occured and the DDK can continue on the next frame.
*/
typedef enum _mali_uk_vsync_event
{
_MALI_UK_VSYNC_EVENT_BEGIN_WAIT = 0,
_MALI_UK_VSYNC_EVENT_END_WAIT
} _mali_uk_vsync_event;
/** @brief Arguments to _mali_ukk_vsync_event()
*
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
_mali_uk_vsync_event event; /**< [in] VSYNCH event type */
} _mali_uk_vsync_event_report_s;
/** @} */ /* end group _mali_uk_vsync */
/** @defgroup _mali_uk_sw_counters_report U/K Software Counter Reporting
* @{ */
/** @brief Software counter values
*
* Values recorded for each of the software counters during a single renderpass.
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
u32* counters; /**< [in] The array of counter values */
u32 num_counters; /**< [in] The number of elements in counters array */
} _mali_uk_sw_counters_report_s;
/** @} */ /* end group _mali_uk_sw_counters_report */
/** @defgroup _mali_uk_stream U/K Mali stream module
* @{ */
/** @brief Create stream
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
int fd; /**< [out] file descriptor describing stream */
} _mali_uk_stream_create_s;
/** @brief Destroy stream
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
int fd; /**< [in] file descriptor describing stream */
} _mali_uk_stream_destroy_s;
/** @brief Create empty fence
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
s32 stream; /**< [in] stream to create fence on */
s32 fence; /**< [out] file descriptor describing fence */
} _mali_uk_fence_create_empty_s;
/** @brief Check fence validity
*/
typedef struct
{
void *ctx; /**< [in,out] user-kernel context (trashed on output) */
int fd; /**< [in] file descriptor describing fence */
} _mali_uk_fence_validate_s;
/** @} */ /* end group _mali_uk_stream */
/** @} */ /* end group u_k_api */
/** @} */ /* end group uddapi */
#ifdef __cplusplus
}
#endif
#endif /* __MALI_UTGARD_UK_TYPES_H__ */